Atomic and Nuclear

Atomic: 27 and 28

27A. Review electromagnetic waves and spectrum.

Review the Electromagnetic Spectrum:

Noteguide27A-EMSpectrum.docx

27B. Understand black body radiation, and Planck's equation.

Planck's Solution to the Blackbody Radiation Problem:

Noteguide27BCD-PlanckAndPhotons.docx

27C. Understand Einstein's photon theory, and do calculations with photons.

Einstein's Photon Theory:

Noteguide27BCD-PlanckAndPhotons.docx

27D. Understand the difference between wave and photon descriptions of light.

Explaining Light as a Wave or as a Photon:

Noteguide27BCD-PlanckAndPhotons.docx

27D1. Understand 4 basic photon interactions with matter and what is meant by complementarity.

Photon Interactions with Matter:

Noteguide27D1-PhotonInteractions.docx

27E. Understand how Einstein's photoelectric effect experiment works.

Einstein's Photoelectric Effect Experiment:

Noteguide27EFG-PhotoElectricEffect.docx

27F. Solve problems with the photoelectric effect.

Solving Photoelectric Effect Problems:

Noteguide27EFG-PhotoElectricEffect.docx

27G. Interpret data from a graph of a photoelectric effect experiment and use it to support photon theory over wave theory

Interpreting a Graph of Photoelectric Effect Data:

Noteguide27EFG-PhotoElectricEffect.docx

27G1. Solve problems with pair production.

Solving Pair Production Problems:

Noteguide27G1-PairProduction.docx

27H. Understand de Broglie's matter wave hypothesis, and do calculations with matter waves.

de Broglie Matter Waves:

Noteguide27H-deBroglie.docx


de Broglie Matter Waves Part 2:

27I. Describe early atomic models of Thomson and Rutherford.

Early Atomic Models:

Noteguide27I-NuclearRadius.docx

27I1. Calculate the radius of a nucleus based on the mass number.

The radius of a Nucleus:

Noteguide27I-NuclearRadius.docx

27J. Solve problems of closest approach in Rutherford scattering experiments.

Solving Closest Approach Problems:

Noteguide27J-ClosestApproach.docx

27K. Understand the Bohr atom and make energy level calculations.

27L. Understand that Bohr atomic orbits are resonant states of electron matter waves.

de Broglie and Bohr:

Noteguide27K-BohrAtom.docx

27M. Understand the Copenhagen Interpretation.

The Copenhagen Interpretation:

Noteguide27MNO-CopenhagenHeisenberg.docx

27N. Understand and do calculations with the Heisenberg uncertainty principle.

The Heisenberg Uncertainty Principle:

Noteguide27MNO-CopenhagenHeisenberg.docx

27O. Understand the issues behind the Einstein-Bohr debate.

Particle: (Chapter 32)

32A. Understand how various types of particle accelerators work, and why they are important to particle physics research

Particle Accelerators:

32B. Understand the basic particles, and the concept behind QED.

Basic Types of Particles and QED:

Hadron Reference sheet:

ReferenceForHadrons.pdf

32C. Apply basic conservation laws of charge, baryon number, and mass energy to predict whether reactions are possible.

Conservation Laws - Charge and Baryon Number:

Conservation of Strangeness:

32D. Apply Lepton conservation laws to predict possible decay reactions and missing decay products.

Conservation of Lepton Number:

32E. Understand Quark theory, and predict the properties of mesons and baryons from their quark compositions.

Three Quarks for Muster Mark:

32F. Draw simple Feynman Diagrams

Drawing Feynman Diagrams:

Nuclear: (Chapter 30)

30A. Introduction to Nuclear Physics - atomic notation, neutrons, isotopes, and the chart of the nuclides.

Noteguide30A-NotationAndIsotopes.docx

Isotopes and Nuclear Notation:

Reference for

IsotopicMass.pdf

30B. Calculating the binding energy of a nucleus, and what it means.

Noteguide30B-BindingEnergy.docx

Calculating Binding Energy:

30C. Understand radioactivity, and know what the types of radiation are. Predict the effects of a particular decay on the nucleus.

30D. Understand what a decay series is.

30E. Calculate the energy of an alpha decay.

30F. Understand what is meant by "tunneling"

30G. Understand what Beta decay is

30H. Understand Gamma decay, and do calculations with Gamma decay.

30I. Do calculations with activity.

30J. Do calculations with decay rate, activity and half life.

30K. Understand how radiometric dating works

Read about Clair Patterson - how determining the age of the earth is related to the petroleum industry's usage of tetra ethyl lead, and clean rooms:

https://en.wikipedia.org/wiki/Clair_Cameron_Patterson

30L. Understand the stability of a nucleus in terms of strong nuclear and Coulombic repulsion.

30M. Be able to use nuclear reaction notation and balance nuclear reactions.

30N. Calculate the energy released or required for a nuclear reaction.

Noteguide30N-QValue.docx

Calculating Q Value of Nuclear Reactions:

30N1. Balance and calculate the Q value of a Nuclear Fission Reaction.

Noteguide30N1-NuclearFission.docx

Calculating the Q Value of Fission Reactions:

30O. Understand the curve of binding energy and how to predict fusion vs fission.

Noteguide30O-CurveOfBindingEnergy.docx

The Curve of Binding Energy:

30P. Understand the events leading up to the dropping of the bomb on Hiroshima.

You don't need to watch this before class - we will talk about this in class

Part 1 - Fission, Einstein's letter, and the Manhattan project


Part 2 - Hiroshima and Nagasaki

30Q. Understand basic issues surrounding nuclear power.

Old Stuff:

Digital Information Storage: (Where do we put this??)

C. Understand the advantages of digital storage.

D. Understand what is meant by sample rate, and bit depth.

E. Understand how data is stored on a CD.

G. Do resolution calculations using the Rayleigh Criterion.

H. Know about other media for storage of digital information.

J. Understand what a CCD device is, and how it works.

K. Do magnification, area and voltage calculations with CCD devices.

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